0000000000395694

AUTHOR

Christopher M. Hobson

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From single fiber to macro-level mechanics: A structural finite-element model for elastomeric fibrous biomaterials

2014

In the present work, we demonstrate that the mesoscopic in-plane mechanical behavior of membrane elastomeric scaffolds can be simulated by replication of actual quantified fibrous geometries. Elastomeric electrospun polyurethane (ES-PEUU) scaffolds, with and without particulate inclusions, were utilized. Simulations were developed from experimentally-derived fiber network geometries, based on a range of scaffold isotropic and anisotropic behaviors. These were chosen to evaluate the effects on macro-mechanics based on measurable geometric parameters such as fiber intersections, connectivity, orientation, and diameter. Simulations were conducted with only the fiber material model parameters a…

ScaffoldFabricationMaterials scienceFinite elements methodPolymersPolyestersmicrostructureFinite Element AnalysisPolyurethanesBiomedical EngineeringBiocompatible MaterialsMicroscopy Atomic ForceElastomercaffoldArticleBiomaterialsMaterials TestingElasticity (economics)Composite materialAnisotropyMesoscopic physicsTissue EngineeringTissue Scaffoldstissue engineering.Polyethylene TerephthalatesIsotropyMechanicsElasticityFinite element methodMechanics of MaterialselectrospunAnisotropyStress MechanicalJournal of the Mechanical Behavior of Biomedical Materials
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